| bio | website | |
|---|---|---|
| location | ||
| age | ||
| visits | member for | 1 year, 6 months |
| seen | Apr 18 at 22:50 | |
| stats | profile views | 66 |
I'm a physics graduate student at the University of Tokyo
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Nov 23 |
accepted | A Galois Group Problem |
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Nov 20 |
accepted | Bounding $H_{0}^{1}$ norm |
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Nov 19 |
awarded | Yearling |
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Nov 19 |
comment |
Bounding $H_{0}^{1}$ norm @Jose27 I see. I believe $a^{ij}$ should be symmetric, and belong to $L^{\infty}$. |
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Nov 19 |
comment |
Bounding $H_{0}^{1}$ norm @Jose27 I don't think Poincare's inequality would work since that requires $1\leq p < n$. In this case, $p=2$, but we don't know anything about $n$. |
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Nov 19 |
asked | Bounding $H_{0}^{1}$ norm |
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Oct 19 |
comment |
The set of real points of a variety $V$ is dense in $V$ @MattE Thanks Matt, that makes more sense |
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Oct 19 |
comment |
The set of real points of a variety $V$ is dense in $V$ @MattE I'm currently seraching notations from the book "Algebraic Curves, Algebraic Manifolds and Schemes" by Danilov and Shokurov. |
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Oct 19 |
comment |
The set of real points of a variety $V$ is dense in $V$ @QiaochuYuan In fact, we don't have such definition in our lecture note (We always have HW assignments like this that contain unknown notations..). However, I guess since $V$ is determined by a prime ideal $P$, does $dim_R(V(R))$ means the kul dimension of $P$ in the ring $\mathbb{R}[x_1,..,x_n]$? |
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Oct 19 |
revised |
The set of real points of a variety $V$ is dense in $V$ deleted 419 characters in body |
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Oct 19 |
comment |
The set of real points of a variety $V$ is dense in $V$ Oh yes.. I think I misunderstood the definition of dimension of an algebraic variety. |
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Oct 19 |
asked | The set of real points of a variety $V$ is dense in $V$ |
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May 15 |
awarded | Tumbleweed |
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May 11 |
accepted | Show the norm map is surjective |
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May 11 |
comment |
Show the norm map is surjective @DylanMoreland Yeah. I'm stucking here. I believe it couldn't be larger, but I can't see it. |
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May 11 |
revised |
Show the norm map is surjective added 14 characters in body |
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May 11 |
asked | Show the norm map is surjective |
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May 10 |
comment |
Integrally closed with roots of identity Very smart way to construct the minimal polynomial for $\Lambda$ |
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May 10 |
accepted | Integrally closed with roots of identity |
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May 10 |
awarded | Commentator |